UK Rain Rate Map for Microwave

The contours of the map are for rain-rate (mm/h) exceeded for 0.01% of time.
The map is positioned in relation to the UK according to the following co-ordinates:

UK rainfall rates for planning microwave links

The map of UK rain rates is constructed from British Atmospheric Data Centre and ITU data. A full explanation is given in (legacy) paper RSSP(05-01)/42, available from Ofcom on request.

UK Microwave Link Planning

Planning of Microwave Links requires understanding of Microwave Propagation. For frequencies above 10GHz, rain fade is significant and needs to be taken into account. Modern Microwave Planning tools can incorporate this data and calculations to achieve Availability Calculations for microwave links deployed in all regions worldwide.

Data is from regulator OFCOM document:
“OfW 446: Technical Frequency Assignment Criteria for Fixed Point-to-Point Radio Services with Digital Modulation “

For Further Information

Please Contact Us

CableFree FOR3 & HCR Microwave

Two dependable and high performance microwave links available from reputable commercial microwave vendors are the CableFree FOR3 & HCR models.

CableFree Licensed Microwave Links offer long distance, high capacity and dedicated bandwidth.

The CableFree range of Microwave links include Full Outdoor (FOR3, Diamond), Full Indoor (LHR), Split Mount (HCR, LCR, MMR) and Broadcast (ASI) links to meet varied customer requirements for metro scale and national scale microwave networks. CableFree Microwave links are are available in licensed bands (4-42GHz) as well as unlicensed 5, 17, 24GHz.

CableFree FOR3 Full Outdoor 1024QAM Microwave Link - Upgrade Dragonwave — FOR3 Full Outdoor 1024QAM Microwave Link

CableFree High Performance Licensed Microwave Radios offer up to 440 Mbps and 880 Mbps Full Duplex payload (1.6Gbps aggregate capacity) and higher up to 3Gbps or more, with a software-selectable mix of SDH, PDH and IP/Ethernet traffic in 4-42GHz licensed frequency bands. Using suitable antennas and sites, ultra-long-distance links exceeding 100km can be achieved.

Introducing CableFree FOR3:

CableFree FOR3 is a Full Outdoor Microwave Link, comprising a fully outdoor radio unit, and just an indoor POE (power over ethernet) injector.

Introducing CableFree HCR:

HCR is a Split-Mount microwave, comprising an Indoor Unit (IDU) and Outdoor Unit (ODU).

Operators often choose Full Outdoor Radios for short links in cities, where rooftop space is limited and costs need to be reduced. Split Mount Radios are used for long-haul links where Space Diversity (SD), XPIC and other techniques are often required

For Further Information

For further information on Microwave Technology and the range of CableFree wireless networking products please Contact Us

Space Diversity in Microwave Links

Why use Space Diversity?

Long distance Microwave Links often use Space Diversity to ensure reliable communications between the two end points.

In certain geographic locations, such as over water and in deserts, multipath propagation poses an impediment to long-haul radio performance in the form of intolerable link outages. To compensate, a protection scheme must be applied. Space Diversity is one such widely implemented protection scheme that improves the performance of long-distance microwave radio links.

Microwave links below and above 10GHz

At link frequencies above 10 GHz, the path length of the link is limited by fading due to the occurrence of precipitation, while at link frequencies below 10 GHz rain attenuation has a limited effect on the path length. For this reason, frequencies below 10 GHz are best suited for long-haul communication networks. However, even in these preferred long-haul frequencies, path length and link availability can be
limited by another phenomenon—fading caused by multipath propagation.

The probability of fading due to multipath propagation is dependent upon geographic factors such as the locale, the terrain over which the radio waves propagate and the path inclination (angle). The path length itself also has an effect since the likelihood of multipath propagation increases as the path length increases. In general, multipath propagation is more likely to occur in tropical areas, desert areas and in links over large bodies of water

Multipath Propagation

Multipath propagation occurs as a result of one or more waves that are sent out from the transmitting antenna being reflected or deflected back onto a path that leads to the receiving antenna. The reflected/deflected wave is received in addition to the direct path wave.

Why use Multiple Antennas?

Spatial diversity employs multiple antennas, usually with the same characteristics, that are physically separated from one another. Depending upon the expected incidence of the incoming signal, sometimes a space on the order of a wavelength is sufficient. Other times much larger distances are needed.

As the multipath transmission is typically caused by fluctual layers in the atmosphere or at ground level, the delay difference between the direct path and the reflected/deflected paths vary over time. Also, the reflection coefficient (strength of the reflection/deflection) varies over time resulting in erratic fading behavior. By putting a second receive antenna on the tower, with a vertical separation from the first antenna, we create a second set of delay combinations. This technique is called Space Diversity. As described below, selective fading will occur at different frequency notches in the two received signals (one at each antenna) due to different delays, resulting in a significantly higher probability of receiving an undistorted signal.

How to achieve Space Diversity

Space Diversity is usually achieved using two vertically spaced antennas (space diversity), multiple transmitter frequencies (frequency diversity), both space and frequency diversity (quad diversity), or reception using two different antenna patterns (angle diversity). Frequency diversity was the first diversity used by fixed point to point microwave systems. Combining dual‐channel space and frequency diversity produces a powerful diversity improvement receiver configuration. The chapter illustrates the receive signal levels for a quad‐diversity path. The purpose of angle diversity antennas is to mitigate the destructive effects of multipath propagation without using a vertically spaced diversity antenna on the microwave tower.

For Further Information

For further information on Microwave Technology and the range of CableFree wireless networking products please Contact Us

Microwave Spectral efficiency Classes

For Microwave Links, the maximum transmission rate in a given bandwidth depends on system spectral efficiency, different equipment classes are here defined. They are based on typical modulation formats and limited by a “minimum Radio Interface Capacity density” (Mbit/s/MHz) shown in table 0. Radio Interface Capacity (RIC) is defined in EN 302 217-1

Radio Interface Capacity (RIC)

The minimum RIC density figures in table 0 are valid only for systems operating on the most common channel separation (CS) equal or higher than 1,75 MHz and taking into account that for channel separations “about” 14 MHz (i.e. from 13,75 MHz to 15,0 MHz), “about” 28 MHz (i.e. from 27,5 MHz to 30 MHz), “about” 56 MHz (i.e. from 55 MHz to 60 MHz) and “about” 112 MHz (i.e. 110 MHz or 112 MHz) the RIC density of actual systems is evaluated only over the “nominal” 14 MHz, 28 MHz, 56 MHz and 112 MHz channel width. Minimum RIC figures for some systems operating on 40 MHz channel separation, with RIC density lower than the minimum requirement in table 0, are defined only in annexes C and Ea. For the special cases of sub-STM-0 capacities (defined in ITU-T Recommendation G.708 [i.63] in annex D, alternative minimum RIC figures are not defined

Spectral Efficiency Class for Microwave Links

For Further Information

Please Contact Us

Upgrading Trango Microwave Links

Why consider upgrading Trango Microwave Links ?

Many users consider upgrading existing Wireless Links such as Trango to add greater capacity, or network coverage. When considering a wireless vendor, factors generally include:

Vendor Track Record
Vendor Corporate Stability
Product Performance & Reliability
Product Support and Service
Manufacturing Leadtimes
Attractive Vendor Roadmap
Product Pricing including all required options

Generally, Microwave links are required to operate unattended for many years in challenging outdoor environments, and therefore reliable and stable products and vendors are paramount in the selection process.

Turbulence in Wireless Vendor Market Space

Amongst many ongoing changes in the market for Microwave Backhaul and Microwave Transmission vendors, there is ongoing consolidation, M&A, and other activities. Recently, Microwave Vendor Trango Networks ceased trading and customers have reported that there is no longer supply of product, spares or support.

According to some former Trango customers in February 2019,

“Trango Systems has ceased trading trading and no longer or supporting existing installed links. We are therefore forced to find alternative suppliers”

Therefore many former Trango customers are looking for dependable alternative suppliers for Microwave and Radio links

Upgrade to Latest Microwave Technology for Higher Capacities

Some vendors are fully shipping products today with 1024QAM, XPIC, and upgrades to 2048QAM, XPIC, 10Gbps MMW (Millimeter Wave), which are features above and beyond those achieved by many in the market today. Customers can upgrade today and achieve higher capacity, longer range, reach and availability, at low Total Cost of Ownership compared to competing options.

Future Roadmap for Microwave Upgrades

In addition to today’s products, an impressive roadmap ensures access to higher speed links and features in future products also. Consideration is worthwhile into:

Vendor roadmaps to higher capacity links with microwave up to 4Gbps or more per link existing today.
Upgrading to E-Band MMW for shorter links especially in congested city environments
Using E-band Millimeter Wave for short links to free-up existing microwave spectrum, relief of spectral congestion and re-using valuable microwave spectrum for longer links where required

For More Information on Microwave Upgrades:

For more information on upgrading your Microwave Radio Network, Please Contact Us

Split Mount Radio Microwave Links

Split Mount Radio (IDU+ODU)

A Split Mount Microwave Radio consisted of Indoor plus Outdoor components – specifically Indoor Unit (IDU) and Outdoor Unit (ODU)

Split Mount Microwave Radios offer up to 500 Mbps and 1Gbps Full Duplex payload and higher up to 6Gbps or more, in 4-42GHz licensed frequency bands.

Indoor Unit (IDU)

A Typical Split Mount Radio consists of a 19″ Rack Mount Indoor Unit which is mounted in a rack, cabinet, comms room, or even roof-mount shelter as possible locations.

Outdoor Unit (ODU)

CableFree Microwave Link ODU using 30cm antenna Split Mount Radio — CableFree Microwave Link Outdoor Unit (ODU) with using 30cm antenna mounted on a pole

The Outdoor Unit (ODU) is typically mounted directly to the Microwave Antenna on a rooftop or tower location, which enables clear Line of Sight (LOS) between both ends of the Microwave link.

For most bands above 6GHz the ODU has a waveguide interface which enables efficient, low-loss connection directly to the antenna. For lower bands below 6GHz, commonly a coaxial cable is used between the ODU and the antenna.

In certain cases, the ODU can be remote mounted from the antenna, and a waveguide used to connect between them

Comparison with Full Outdoor Radios

A split mount radio is considered a “traditional” design and older radios always feature this. The Indoor Unit has all the network interfaces and processing in the easy-access indoor location at the foot the tower or building. Full Outdoor Radios by contrast have all the active items including the modem and user network interfaces inside the rooftop radio element. This saves on space, materials, installation time and cost. A downside is that in the event of any failure, a tower climb is almost always needed to rectify any fault, which may be impossible in rough weather, or require permits or have access limitations to reach

Distances and Range Capability of Split Mount Radios

Using suitable antennas and sites, ultra-long-distance links exceeding 100km can be achieved. Distances depend on:

Frequency band
Regional Rainfall
Required throughput (Mbps)
Desired Availability (%)
Antenna size (gain)

For Further Information

For more information on Full Outdoor Radios and Microwave Networks please Contact Us

Microwave Waveguide Sizes & Dimensions

Microwave Waveguide Sizes

Due to high frequencies used, Waveguides rather than RF coaxial cables are used to connect Microwave Radios, Antennas and Couplers. Matched and correct size and dimension of Waveguide is essential for all items in the Microwave link.

What is a Waveguide?

A waveguide is an electromagnetic feed line that is used for high frequency signals. Waveguides conduct microwave energy at lower loss than coaxial cables and are used in microwave communications, radars and other high frequency applications.

The waveguide must have a certain minimum cross section, relative to the wavelength of the signal to function properly. If wavelength of the signal is too long (Frequency is too low) when compared to the cross section of the waveguide, the electromagnetic fields cannot propagate. The lowest frequency range at which a waveguide will operate is where the cross section is large enough to fit one complete wavelength of the signal.

Rectangular, Circular and Double Rigid

Geometrically speaking there are three types of waveguides – Rectangular Waveguides, Double Rigid Waveguides and Circular Waveguides. The tables below will give you details on the various waveguide sizes and their properties.

Rectangular Waveguide Sizes

Waveguide name			Recommended frequency	Cutoff frequency lowest order mode	Cutoff frequency next mode	Inner dimensions of waveguide opening
EIA	RCSC *	IEC				A inch[mm]	B inch[mm]
WR2300	WG0.0	R3	0.32 to 0.45 GHz	0.257 GHz	0.513 GHz	23 [584.2]	11.5 [292.1]
WR2100	WG0	R4	0.35 to 0.50 GHz	0.281 GHz	0.562 GHz	21 [533.4]	10.5 [266.7]
WR1800	WG1	R5	0.45 to 0.63 GHz	0.328 GHz	0.656 GHz	18 [457.2]	9 [228.6]
WR1500	WG2	R6	0.50 to 0.75 GHz	0.393 GHz	0.787 GHz	15 [381]	7.5 [190.5]
WR1150	WG3	R8	0.63 to 0.97 GHz	0.513 GHz	1.026 GHz	11.5 [292.1]	5.75 [146.05]
WR975	WG4	R9	0.75 to 1.15 GHz	0.605 GHz	1.211 GHz	9.75 [247.65]	4.875 [123.825]
WR770	WG5	R12	0.97 to 1.45 GHz	0.766 GHz	1.533 GHz	7.7 [195.58]	3.85 [97.79]
WR650	WG6	R14	1.15 to 1.72 GHz	0.908 GHz	1.816 GHz	6.5 [165.1]	3.25 [82.55]
WR510	WG7	R18	1.45 to 2.20 GHz	1.157 GHz	2.314 GHz	5.1 [129.54]	2.55 [64.77]
WR430	WG8	R22	1.72 to 2.60 GHz	1.372 GHz	2.745 GHz	4.3 [109.22]	2.15 [54.61]
	WG9		2.20 to 3.30 GHz	1.686 GHz	3.372 GHz	3.5 [88.9]	1.75 [44.45]
WR340	WG9A	R26	2.20 to 3.30 GHz	1.736 GHz	3.471 GHz	3.4 [86.36]	1.7 [43.18]
WR4284	WG10	R32	2.60 to 3.95 GHz	2.078 GHz	4.156 GHz	2.84 [72.136]	1.34 [34.036]
	WG11		3.30 to 4.90 GHz	2.488 GHz	4.976 GHz	2.372 [60.2488]	1.122 [28.4988]
WR229	WG11A	R40	3.30 to 4.90 GHz	2.577 GHz	5.154 GHz	2.29 [58.166]	1.145 [29.083]
WR187	WG12	R48	3.95 to 5.85 GHz	3.153 GHz	6.305 GHz	1.872 [47.5488]	0.872 [22.1488]
WR159	WG13	R58	4.90 to 7.05 GHz	3.712 GHz	7.423 GHz	1.59 [40.386]	0.795 [20.193]
WR137	WG14	R70	5.85 to 8.20 GHz	4.301 GHz	8.603 GHz	1.372 [34.8488]	0.622 [15.7988
WR112	WG15	R84	7.05 to 10 GHz	5.26 GHz	10.52 GHz	1.122 [28.4988]	0.497 [12.6238]
WR102			7.00 to 11 GHz	5.786 GHz	11.571 GHz	1.02 [25.908]	0.51 [12.954]
WR90	WG16	R100	8.20 to 12.40 GHz	6.557 GHz	13.114 GHz	0.9 [22.86]	0.4 [10.16]
WR75	WG17	R120	10.00 to 15 GHz	7.869 GHz	15.737 GHz	0.75 [19.05]	0.375 [9.525]
WR62	WG18	R140	12.40 to 18 GHz	9.488 GHz	18.976 GHz	0.622 [15.7988]	0.311 [7.8994]
WR51	WG19	R180	15.00 to 22 GHz	11.572 GHz	23.143 GHz	0.51 [12.954]	0.255 [6.477]
WR42	WG20	R220	18.00 to 26.50 GHz	14.051 GHz	28.102 GHz	0.42 [10.668]	0.17 [4.318]
WR34	WG21	R260	22.00 to 33 GHz	17.357 GHz	34.715 GHz	0.34 [8.636]	0.17 [4.318]
WR28	WG22	R320	26.50 to 40 GHz	21.077 GHz	42.154 GHz	0.28 [7.112]	0.14 [3.556]
WR22	WG23	R400	33.00 to 50 GHz	26.346 GHz	52.692 GHz	0.224 [5.6896]	0.112 [2.8448]
WR19	WG24	R500	40.00 to 60 GHz	31.391 GHz	62.782 GHz	0.188 [4.7752]	0.094 [2.3876]
WR15	WG25	R620	50.00 to 75 GHz	39.875 GHz	79.75 GHz	0.148 [3.7592]	0.074 [1.8796]
WR12	WG26	R740	60 to 90 GHz	48.373 GHz	96.746 GHz	0.122 [3.0988]	0.061 [1.5494]
WR10	WG27	R900	75 to 110 GHz	59.015 GHz	118.03 GHz	0.1 [2.54]	0.05 [1.27]
WR8	WG28	R1200	90 to 140 GHz	73.768 GHz	147.536 GHz	0.08 [2.032]	0.04 [1.016]
WR6	WG29	R1400	110 to 170 GHz	90.791 GHz	181.583 GHz	0.065 [1.651]	0.0325 [0.8255]
WR7	WG29	R1400	110 to 170 GHz	90.791 GHz	181.583 GHz	0.065 [1.651]	0.0325 [0.8255]
WR5	WG30	R1800	140 to 220 GHz	115.714 GHz	231.429 GHz	0.051 [1.2954]	0.0255 [0.6477]
WR4	WG31	R2200	172 to 260 GHz	137.243 GHz	274.485 GHz	0.043 [1.0922]	0.0215 [0.5461]
WR3	WG32	R2600	220 to 330 GHz	173.571 GHz	347.143 GHz	0.034 [0.8636]	0.017 [0.4318]

Note:

The “WR” designation stands for Rectangular Waveguides
The Number that follows “WR” is the width of the waveguide opening in mils, divided by 10. For Example WR-650 means a waveguide whose cross section width is 6500 mils.
The waveguide width determines the lower cutoff frequency and is equal (ideally) to ½ wavelength of the lower cutoff frequency.

Double-ridge waveguides are rectangular wagevuides with two ridges protruding parallel to the short wall. This increases the E-Field in the waveguide improving performance.

Double Ridge Waveguide Sizes

Designation (a)=aluminum, (b)=brass, (c)=copper, (s)=silver				*f_{L –}f_U_(GHz)**	f_CO_(GHz)**	Inside Width (in)	Inside Height (in)
WR	U.S. Mil. __ /U	British Mil.	IEC	*f_{L –}f_U_(GHz)**	f_CO_(GHz)**	Inside Width (in)	Inside Height (in)
WR975	RG204 (a)			0.75-1.12	0.605	9.750	4.875
WR770	RG205 (a)			0.96-1.45	0.766	7.700	3.850
WR650	RG69 (b) RG103 (a)	WG6		1.12-1.70	0.908	6.500	3.250
WR510				1.45-2.20	1.157	5.100	2.550
WR430	RG104 (b) RG105 (a)	WG8		1.70-2.60	1.372	4.300	2.150
WR340	RG112 (b) RG113 (a)	WG9A		2.20-3.30	1.736	3.400	1.700
WR284	RG48 (b) RG75 (a)	WG10		2.60-3.95	2.078	2.840	1.340
WR229	RG340 (c) RG341 (a)	WG11A	R40	3.30-4.90	2.577	2.290	1.145
WR187	RG49 (b) RG95 (a)	WG12	R48	3.95-5.85-	3.152	1.872	0.872
WR159	RG343 (c) RG344 (a)	WG13	R58	4.90-7.05	3.712	1.590	0.795
WR137	RG50 (b) RG106 (a)	WG14	R70	5.850-8.200	4.301	1.372	0.622
WR112	RG51 (b) RG68 (a)	WG15	R84	7.050-10.000	5.260	1.122	0.497
WR90	RG52 (b) RG67 (a)	WG16	R100	8.20-12.40	6.56	0.900	0.400
WR75	RG346 (c) RG347 (a)	WG17		10.0-15.0	7.87	0.750	0.375
WR62	RG91 (b) RG349 (a)	WG18		12.40-18.00	9.49	0.622	0.311
WR51	RG352 (c) RG351 (a)	WG19		15.00-22.00	11.6	0.510	0.255
WR42	RG53 (b) RG121 (a)	WG20		18.00-26.5	14.1	0.420	0.170
WR34	RG354 (c)			20.0-33.0	17.4	0.340	0.170
WR28	RG96 (s) RG271 (c)	WG22		26.50-40.00	21.1	0.280	0.140
WR22	RG97 (s)	WG23		33.00-50.00	26.4	0.224	0.112
WR19		WG24		40.00-60.00	31.4	0.188	0.0940
WR15	RG98 (s)	WG25		50.00-75.00	39.9	0.148	0.0740
WR12	RG99 (s)	WG26		60.00-90.00	48.4	0.122	0.0610
WR10		WG27		75.00-110.0	59.0	0.100	0.0500
WR8	RG138 (s)	WG28		90.00-140.0	73.8	0.0800	0.0400
WR7	RG136 (s)			110.0-170.0	90.8	0.0650	0.0325
WR4	RG137			170.0-260.0	137	0.0430	0.0215
WR3	RG139 (s)			220.0-325.0	174	0.0340	0.0170

Circular Waveguide Sizes

FrequencyBand	Frequency Range		Circular WaveguideDiameter, Inches (mm)	Cover Flange (Brass)MIL-F- 3922 UG	Flange Type
X	LOW	8.2-9.97	1.094 (27.79)	53-001 UG-39/U	Square
	MID	8.5-11.6	0.938 (23.83)
	HIGH	9.97-12.4	0.797 (20.24)
Ku	LOW	12.4-15.9	0.688 (17.48)	53-005 UG-1666/U	Square
	MID	13.4-18.0	0.594 (15.08)
	HIGH	15.9-18.0	0.500 (12.70)
K	LOW	17.5-20.5	0.455 (11.56)	54-001 UG-595/U	Square
	MID	20-24.5	0.396 (10.06)
	HIGH	24-26.5	0.328 (8.33)
Ka	LOW	26.5-33	0.315 (8.00)	54-003 UG-595/U	Square
	MID	33-38.5	0.250 (6.35)
	HIGH	38.5-40	0.219 (5.56)
Q	LOW	33-38.5	0.250 (6.35)	67B-006 UG-383/U	Round
	MID	38.5-43	0.219 (5.56)
	HIGH	43-50	0.188 (4.78)
U	LOW	40-43	0.210 (5.33)	67B-007 UG-383/U-M	Round
	MID	43-50	0.188 (4.78)
	HIGH	50-60	0.165 (4.19)
V	LOW	50-58	0.165 (4.19)	67B-008 UG-385/U	Round
	MID	58-68	0.141 (3.58)
	HIGH	68-75	0.125 (3.18)
E	LOW	60-66	0.136 (3.45)	67B-009 UG-387/U	Round
	MID	66-82	0.125 (3.18)
	HIGH	82-90	0.094 (2.39)
W	LOW	75-88	0.112 (2.84)	67B-010 UG-387/U-M	Round
W	HIGH	88-110	0.094 (2.39)	67B-010 UG-387/U-M	Round
F	LOW	90-115	0.089 (2.26)	-UG-387/U-M	Round
F	HIGH	115-140	0.075 (1.91)	-UG-387/U-M	Round
D	LOW	110-140	0.073 (1.85)	-UG-387/U-M	Round
D	HIGH	140-160	0.059 (1.50)	-UG-387/U-M	Round
G	LOW	140-180	0.058 (1.47)	-UG-387/U-M	Round
G	HIGH	180-220	0.045 (1.14)	-UG-387/U-M	Round
—	—	170-260	0.049 (1.25)	-UG-387/U-M	Round
—	—	220-325	0.039 (0.99)	-UG-387/U-M	Round

WR340 | WG9A | R26 Waveguide

WR340 | WG9A | R26 – Rectangular Waveguide Size

WR340 | WG9A | R26 Waveguide Size

EIA Standard:WR340
RSCS Standard (British Military):WG9A
IEC Standard:R26

WR340 Specifications

Recommended Frequency Band:2.20 to 3.30 GHz
Cutoff Frequency of Lowest Order Mode:1.736 GHz
Cutoff Frequency of Upper Mode:3.471 GHz
Dimension:3.4 Inches [86.36 mm] x 1.7 Inches [43.18 mm]

Microwave Waveguide WR2300 — Microwave Waveguide

What is a Waveguide?

For Further Information

For More Information on Microwave Planning, Please Contact Us

WR975 | WG4 | R9 Waveguide

WR975 | WG4 | R9 – Rectangular Waveguide Size

Waveguide Size

EIA Standard:WR975
RSCS Standard (British Military):WG4
IEC Standard:R9

WR975 Specifications

Recommended Frequency Band:0.75 to 1.15 GHz
Cutoff Frequency of Lowest Order Mode:0.605 GHz
Cutoff Frequency of Upper Mode:1.211 GHz
Dimension:9.75 Inches [247.65 mm] x 4.875 Inches [123.825 mm]

Microwave Waveguide WR975 — Microwave Waveguide

What is a Waveguide?

For Further Information

For More Information on Microwave Planning, Please Contact Us

WR1150 | WG3 | R8 Waveguide

WR1150 | WG3 | R8 – Rectangular Waveguide Size

Waveguide Size

EIA Standard:WR1150
RSCS Standard (British Military):WG3
IEC Standard:R8

WR1150 Specifications

Recommended Frequency Band:0.63 to 0.97 GHz
Cutoff Frequency of Lowest Order Mode:0.513 GHz
Cutoff Frequency of Upper Mode:1.026 GHz
Dimension:11.5 Inches [292.1 mm] x 5.75 Inches [146.05 mm]

Microwave Waveguide WR1150 — Microwave Waveguide

What is a Waveguide?

For Further Information

For More Information on Microwave Planning, Please Contact Us